WO2019168293A1

WO2019168293A1 - Cooling dew-condensation filter means, and white smoke and microdust reducing system using same

Info

Publication number: WO2019168293A1
Application number: PCT/KR2019/002062
Authority: WO
Inventors: 최준성; 이성균; 이규홍; 이상우
Original assignee: 주식회사 누리플랜
Priority date: 2018-02-27
Filing date: 2019-02-20
Publication date: 2019-09-06

Abstract

The present invention provides a white smoke and microdust reducing system comprising: an electrostatic coagulation device which suctions vapor including microdust and white smoke from industrial facilities, adsorbs and removes white smoke and microdust particles in the vapor, and then discharges the vapor; and a white smoke removal device which suctions the vapor discharged from the electrostatic coagulation device, and condenses the vapor to generate dew and then settles and removes the dew by an exhaust passage structure in which the vapor is induced and cooled.

Description

Cooling dew condensation filter means and white smoke and fine dust reduction system using the same

The present invention relates to a cooling condensation filter means and a white smoke and fine dust reduction system using the same, and more particularly, white smoke and fine dust particles generated at an industrial site are adsorbed and removed by using electrostatic properties. The present invention relates to a cooling condensation filter means capable of condensation and condensation by sedimentation and removal of sediment by an exhaust road structure that is induced and cooled, and a white smoke and fine dust reduction system using the same.

In general, in industrial sites such as steel mills, the intermediate material or equipment is cooled through a direct cooling device during the casting process. For example, the intermediate material such as slab, bloom, billet or the like is used by using water as cooling water in the direct cooling device. Cool the equipment to produce the material.

However, water vapor is generated during the cooling process using water as the cooling water as described above, and the water vapor is discharged to the outside through a chimney or the like so as not to interfere with the operation.

Thus, in the case of water vapor discharged to the outside through the chimney as described above, white smoke occurs when discharged to the chimney.

On the other hand, fine dust (including fog) is caused by condensation of water vapor in contact with cold air, and when the work is performed in an industrial site, the correction is reduced by fine dust, resulting in various safety accidents or work. This causes a delayed problem.

Thus, in order to solve the above problems, there has been disclosed a white smoke and fine dust reduction system, such as Patent No. 10-1126022.

Here, the conventional white smoke and fine dust reduction system has a configuration in which the white smoke and fine dust introduced into the lower end of the housing of the cylindrical structure is discharged to the upper end, and at this time, by spraying water on the white smoke and fine dust inside the housing, The injection unit and the like is configured to allow the enemy to grow.

However, since the conventional white lead and fine dust reduction system provides a structure in which white lead and fine dust particles are precipitated by simply spraying water on the white lead and fine dust, the white lead and fine dust particles when the movement speed of white lead and fine dust is high. There is a problem in that it is discharged in a white gas color to the outside without being completely removed to feel a visual burden such as the discharge of pollutants.

Therefore, an object of the present invention is the cooling condensation filter means that can be removed by sedimentation and condensation by the exhaust passage structure in which the white lead and fine dust particles are adsorbed and removed by using the electrostatic properties and the white lead and fine dust particles are guided and cooled. And to provide a white smoke and fine dust reduction system using the same.

On the other hand, the object of the present invention is not limited to the above-mentioned object, other objects that are not mentioned will be clearly understood by those skilled in the art from the following description.

According to the present invention, there is provided an electrostatic agglomeration apparatus for sucking water vapor including white smoke and fine dust in an industrial facility, and allowing the white smoke and fine dust particles in the water vapor to be adsorbed and removed; There is provided a white smoke and fine dust reduction system including a smoke removal device that sucks water vapor discharged from the electrostatic agglomeration device and condenses and condenses the water vapor by condensation and condensation by the exhaust passage structure in which the water vapor is cooled.

Here, the white smoke and fine dust reduction system preferably includes a control device that provides a function of controlling and controlling the operation state of the electrostatic agglomeration device and the smoke removal device and guiding information to the external manager.

In addition, the electrostatic agglomeration apparatus, the electrostatic agglomeration housing in which water vapor is sucked in and out; An ionizer and a collector configured inside the electrostatic agglomeration housing and discharging the internal space of the electrostatic agglomeration housing so that white smoke and fine dust particles of water vapor are ionized, and then electrically adsorbed and collected; And an electrostatic agglomeration fan configured inside the electrostatic agglomeration housing.

In addition, the white smoke removal device, the white smoke removal housing for allowing the steam to be sucked through the suction port and the steam is discharged through the discharge port; A dust removal filter unit configured at a rear end of the inlet of the fume removal housing and configured to adsorb and remove contaminants contained in water vapor sucked into the inlet; A cooling condensation filter means configured at the front end of the outlet of the white smoke removal housing and providing an exhaust passage structure in which water vapor exhausted toward the outlet is cooled, thereby allowing white smoke and fine dust particles to condense or condensate; A white smoke removal fan configured at an outlet side of the white smoke removal housing; And a water collecting filter configured to adsorb and remove the contaminants of the water vapor discharged to the outlet and formed at the front end of the outlet of the white smoke removal housing.

In addition, the cooling condensation filter means, the flange panel having an area smaller than the inner peripheral surface area of the white smoke removal housing, the discharge hole for allowing the discharge of water vapor in the central portion is formed in a predetermined area; Water vapor (settling and adsorption) is formed to have a diameter larger than the discharge hole from one surface of the flange panel and is formed to extend into a cylindrical structure, and a plurality of exhaust holes into which water vapor flows into a predetermined size is moved toward the outlet of the white smoke removal housing. Exhaust filter box for introducing the white lead and fine dust particles that are not removed through the inside; It has a diameter corresponding to the discharge hole from one surface of the flange panel and extends in a cylindrical structure, and a plurality of condensation holes are formed on the surface to a size larger than the exhaust hole. A condensation filter container for condensation and sedimentation when the introduced water vapor enters through the condensation hole; A blocking plate which closes the open end of the exhaust filter container and the condensation filter box to form a flow path through which water vapor flows into the exhaust hole and the condensation hole; Communication that extends from the other side of the flange panel and provides a space in communication with the discharge hole; And condensation between the exhaust filter and the condensation filter by allowing water vapor, including white smoke and fine dust, located in the interior space of the communication and located in the space between the exhaust filter and the exhaust filter housing to be introduced through the exhaust and condensation holes. It is preferable to include an exhaust fan to cause this to occur.

On the other hand, according to the present invention, in the smoke removal device to suck the water vapor exhausted from the external or electrostatic agglomeration device and to condensate and condensation by condensation and condensation by the exhaust passage structure that is cooled while the water vapor is induced, A flange panel having an area smaller than that of the inner circumferential surface and having a discharge hole opening in a predetermined area to enable discharge of steam in the central portion thereof; Water vapor (settling and adsorption) is formed to have a diameter larger than the discharge hole from one surface of the flange panel and is formed to extend into a cylindrical structure, and a plurality of exhaust holes into which water vapor flows into a predetermined size is moved toward the outlet of the white smoke removal housing. Exhaust filter box for introducing the white lead and fine dust particles that are not removed through the inside; It has a diameter corresponding to the discharge hole from one surface of the flange panel and extends into the tubular structure, and a plurality of condensation holes are formed in a larger size than the exhaust hole so that water vapor introduced into the exhaust filter tank through the exhaust hole is removed. Condensation filter box to allow the condensation and sedimentation when entering into the interior; A blocking plate which closes the open end of the exhaust filter container and the condensation filter box to form a flow path through which water vapor flows into the exhaust hole and the condensation hole; Communication that extends from the other side of the flange panel and provides a space in communication with the discharge hole; And condensation between the exhaust filter and the condensation filter by allowing water vapor, including white smoke and fine dust, located in the interior space of the communication and located in the space between the exhaust filter and the exhaust filter housing to be introduced through the exhaust and condensation holes. Cooling condensation filter means comprising an exhaust fan is provided.

Here, it is preferable that the cooling condensation filter means further comprises a vibrator installed in the exhaust filter cylinder or the blocking plate to generate vibrations in the exhaust filter cylinder and the condensation filter cylinder.

In addition, it is preferable that the cooling condensation filter means has a bellows duct structure in which the exhaust fan is configured, and the exhaust filter cylinder is installed on the inner circumferential surface of the white smoke removal housing in an anti-vibration structure.

Therefore, according to the present invention, the white lead and fine dust particles may be adsorbed and removed by using an electrostatic property, and the white lead and fine dust particles may be condensed and condensed by sedimentation and condensation by an exhaust passage structure in which the white lead and fine dust particles are cooled.

On the other hand, the effects of the present invention is not limited to the effects mentioned above, other effects that are not mentioned will be clearly understood by those skilled in the art from the description of the claims.

1 is a schematic view showing the overall configuration of a white smoke and fine dust reduction system according to a preferred embodiment of the present invention;

2 is a view showing the configuration of the electrostatic agglomeration apparatus in the white smoke and fine dust reduction system of FIG.

Figure 3 is a side cross-sectional view showing the configuration of the white smoke removal device in the white smoke and fine dust reduction system of FIG.

4 and 5 are views showing the configuration of the cooling condensation filter means in the white smoke removal device of FIG.

6 and 7 show another embodiment of the cooling condensation filter means in the white smoke removal apparatus of FIG. And

8 is a view showing the configuration of a control device in the white smoke and fine dust reduction system of FIG.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

As shown in Figures 1 to 8, the white smoke and fine dust reduction system according to a preferred embodiment of the present invention, suction the water vapor from the discharge means (P) for discharging the water vapor containing the white smoke and fine dust in an industrial facility After the suction and removal of the white smoke and fine dust particles in the water vapor, the electrostatic agglomeration apparatus 100, the exhaust of the exhaust from the electrostatic agglomeration apparatus 100 and the exhaust condensed by the structure of the exhaust passage is cooled while the steam is induced And control to control and control the operation state of the white smoke removal device 200 and the electrostatic agglomeration device 100 and the white smoke removal device 200 to remove and settle condensation, and to provide information on the information to the external manager. Device 300 and the like.

The electrostatic agglomeration apparatus 100 is a means for ionizing and removing white smoke and fine dust particles of water vapor discharged from an industrial facility through electrostatic characteristics, and having a tubular structure in which water vapor is sucked and exhausted. ), The ionizer 120A and the collector (100A) configured to be discharged inside the electrostatic agglomeration housing 110 and discharge the internal space of the electrostatic agglomeration housing 110 so that the white smoke and fine dust particles of water vapor are ionized. 120B) and an electrostatic agglomeration fan 130 configured inside the electrostatic agglomeration housing 110 to enable suction and exhaust of water vapor.

Here, the ionizer 120A and the collector 120B are configured in parallel to the traveling direction of the water vapor in the electrostatic agglomeration housing 110, and the electric dust collector which discharges and collects the white smoke and fine dust particles contained in the water vapor. Has the configuration of.

More preferably, the plate-shaped electrodes 121 having opposite polarities are alternately arranged inside the electrostatic aggregating housing 110, and the plate-shaped electrodes 121 are configured in the longitudinal direction perpendicular to the traveling direction of the water vapor. Discharge space portion 122 is formed by, is formed integrally with the plate-shaped electrode 121 on the discharge space portion 122 and is arranged perpendicular to the direction of the progress of the water vapor discharge needle 123 is projected The ionizer 120A is formed thereon, and the remaining region other than the ionizer 120A on the plate-shaped electrode 121 forms the collector 120B so that the ionizer 120A and the collector 120B have the same plate-type electrode 121. It is preferably formed on the phase.

Here, the electrostatic agglomeration apparatus 100 further includes a filtering unit 140 such as a dummyster filter and an after filter, which allow contaminants in water vapor to be adsorbed and removed on the suction side and the exhaust side of the discharge electrostatic agglomeration housing 110, respectively. It is desirable to be.

Therefore, according to the electrostatic agglomeration apparatus 100, the white smoke and fine dust particles in the water vapor are adsorbed onto the flat electrode 121 by the electrostatic property in an ionized state, so that odors or contaminants in the water vapor can be deodorized.

The white smoke removal device 200 is a means for sucking the water vapor exhausted from the electrostatic agglomeration device 100 and allowing the water vapor to condense and condensate and settle down by the exhaust passage structure that is cooled while the water vapor is guided. Steam suction through the suction port 211 of the lower side and the exhaust port 212 to the exhaust through the exhaust port housing 212, the inlet port 211 of the smoke removal housing 210 is configured to the rear end and the suction port Dust removal filter unit 220 for adsorbing and removing contaminants such as odor and water contained in the water vapor sucked into the 211, the exhaust port 212 of the smoke removal housing 210 is configured in the front end and the discharge port 212 Water vapor (white smoke and fine dust particles) that are exhausted toward the induction to provide a cooling structure of the exhaust gas so that the white smoke and fine dust particles condensation or condensation at the bottom of the white smoke removal housing 210 Cooling condensation filter means 230 to be sedimentation removal to the collecting tank 213 is formed, the exhaust smoke exhaust fan 240 is configured to allow the intake and discharge of water vapor to the outlet 212 side of the smoke removal housing 210 And a water collecting filter unit 250 configured to adsorb and remove contaminants such as dust or moisture of water vapor discharged to the outlet 212 and discharged to the outlet 212.

Here, the smoke removal apparatus 200, the sensor unit is installed at the corresponding position between the inlet 211 and the discharge port 212 in the smoke removal housing 210 to sense the moving speed or amount of water vapor, and the like; The sensor unit further includes a control unit for controlling the operation of the exhaust fan 236 and the smoke removal fan 240 configured in the cooling condensation filter unit 230 based on the measured value.

The smoke removal housing 210 is a means for providing a space in which the components are compactly installed, and has a cylindrical shape, and the water vapor sucked into the suction hole 211 through the smoke removal fan 240 opens the discharge hole 212. Is discharged through.

Here, the white smoke removal housing 210 may be easily positioned in the electrostatic agglomeration apparatus 100 through a moving part such as a caster and an installation bracket configured at a lower side.

The dust removal filter unit 220 is configured on the inlet 211 side of the white smoke removal housing 210 and is a means for adsorbing and removing contaminants such as odor and moisture together with white smoke and fine dust in water vapor. Filter case of the cylindrical structure having a structure that is integrally configured or detachably installed in the housing 210 and having an area corresponding to the hollow of the white smoke removal housing 210, is formed through the front and the back of the filter case, white lead and It is configured to be detachably inserted into a plurality of entrance holes and filter cases allowing water vapor, such as fine dust particles, to enter and exit the inside of the filter case, and fine dust or moisture contained in the water vapor entering and exiting the filter case through access holes. It includes a porous filter such that the same pollutants are adsorbed and removed.

Therefore, according to the dust removal filter 220, white lead and fine dust particles may be adsorbed and removed, and thus, white lead, fine dust particles, and moisture included in water vapor moved toward the cooling condensation filter means 230 described below. When the contaminants such as odor particles or the like are finally adsorbed and removed by the porous filter, the inside of the cooling condensation filter means 230 even if white smoke and fine dust particles are stagnated according to the exhaust path structure of the cooling condensation filter means 230. Moisture or dust is adsorbed and deposited on the substrate to reduce the efficiency of condensation removal.

In addition, according to the dust removal filter 220, both the filter case or the porous filter has a material or structure that can be washed, thereby facilitating the removal of adsorbed and deposited contaminants, thereby reducing maintenance costs.

In addition, the dust removal filter unit 220 may further have a configuration of a washing nozzle for supplying the washing water from the upper side of the filter case, in this case the drain hole for draining the washing water and contaminants in the lower side of the filter case It may be further formed to facilitate the removal of contaminants deposited on the porous filter.

In addition, when the plurality of dust removal filter unit 220 is configured in the white smoke removal housing 210, it is preferable that the pore size of the porous filter gradually decreases toward the rear end thereof, through which the white smoke continuously passes through the porous filter. And even if the size of the fine dust particles are fine, it is good to be filtered.

On the other hand, the cooling condensation filter means 230 according to a preferred embodiment of the present invention is configured on the outlet 212 side of the smoke removal housing 210, that is, the water vapor that is exhausted toward the outlet 212, that is, white smoke and fine dust particles As a means for providing a structure of the exhaust path to be cooled while being guided so that the white smoke and fine dust particles condensed or condensed to settle down into the collection tank 213, having a smaller area than the inner peripheral surface area of the white smoke removal housing 210 The discharge hole 231a for discharging the water vapor into the flange panel 231 and the flange panel 231, which has an opening in a predetermined area, have a larger diameter than the discharge hole 231a and have a tubular structure. And a plurality of exhaust holes 232a through which water vapor flows into the surface are formed to a predetermined size and are moved toward the outlet 212 of the white smoke removal housing 210 (by sedimentation and adsorption. And the exhaust filter cylinder 232 to allow the non-white smoke and fine dust particles to be introduced into the tubular body, and has a diameter corresponding to the discharge hole 231a from one surface of the flange panel 231 and is formed in the tubular structure. A plurality of condensation holes 233a are formed in a larger size than the exhaust holes 232a and cooled to a predetermined temperature by negative pressure generated between the exhaust filter cylinder 232 and the white smoke and the fine dust particles when moving. Condensation filter cylinder 233 to be condensed when the water vapor introduced into the exhaust filter cylinder 232 through the exhaust hole 232a condensed when introduced into the interior through the condensation hole 233a, A blocking plate 234 and a flange panel 231 which close the open ends of the exhaust filter cylinder 232 and the condensation filter cylinder 233 to form a flow path through which the water vapor flows into the exhaust hole 232a and the condensation hole 233a. Space extending from the other side of the space and communicating with the discharge hole 231a Provided with the communication 235, the internal space of the communication 235 and the water vapor containing the white smoke and fine dust located in the space between the exhaust filter cylinder 232 and the smoke removal housing 210, the exhaust hole 232a Exhaust fan 236 and the exhaust filter 232 or blocking to provide a negative pressure so that the condensation occurs between the exhaust filter 232 and the condensation filter 233 by allowing the inflow through the condensation hole 233a. Installed on the plate 234 to generate vibration in the exhaust filter cylinder 232 and the condensation filter cylinder 233 to degas dust or moisture adsorbed to the exhaust filter cylinder 232 and the condensation filter cylinder 233. Vibrator 237 and the like.

Here, the cooling condensation filter means 230 may be a plurality of consecutively configured so that the white smoke and fine dust particles finally contained in the water vapor before condensation is discharged to the outlet 212.

Therefore, according to the cooling condensation filter means 230, when the water vapor moves to the condensation hole 233a having a relatively large diameter via the exhaust hole 232a having a large diameter, the outside of the exhaust filter cylinder 232 is positive pressure ( positive pressure) and the inside of the exhaust filter cylinder 232 has a negative pressure state by the operation of the exhaust fan 236, so that white smoke and fine dust particles are moved at high speed from the outside of the exhaust filter cylinder 232 to the inside. The condensation filter cylinder 233 is cooled to a predetermined temperature so that water vapor is condensed or condensed on the surface of the condensation filter cylinder 233 and then settled into the collection tank 213 configured at the lower end of the white smoke removal housing 210. Even if contaminated particles are included in the discharge port 212, it may be finally removed before being discharged.

In addition, when the vibrator 237 is configured in the exhaust filter cylinder 232 or the blocking plate 234, vibration may occur in the communication 235, which may cause a fatal problem in the operating life of the exhaust fan 236. More preferably, the communication 235 is composed of the exhaust fan 236 is preferably a bellows duct structure, the exhaust filter cylinder 232 through the anti-vibration pad (not shown), such as white smoke removal housing 210 It is preferable that it is provided in the inner peripheral surface of the).

In addition, in the case of the exhaust filter cylinder 232 and the condensation filter cylinder 233, the other end extending to the flange panel 231 is extended to the blocking plate 234 so that crystals of condensed water vapor are collected to the lower end. It is preferable to be configured obliquely while having a higher position, the blocking plate 234 is preferably formed with a drain hole (not shown) to drain the water generated by the condensation.

On the other hand, in the present invention, the cooling condensation filter means 230 is the exhaust filter cylinder 232 and the condensation filter cylinder 233 is located in a state parallel to the traveling direction of the water vapor in the white smoke removal housing 210. Accordingly, when water vapor is introduced through the exhaust hole 232a and the condensation hole 233a, there is a problem in that congestion occurs because the traveling direction of the steam and the installation angle of the exhaust hole 232a and the condensation hole 233a are vertical.

Thus, the cooling condensation filter means 230 according to the present invention, one end of the exhaust filter cylinder 232 and the condensation filter cylinder 233 extending to the flange panel 231 is larger than the other end extending to the blocking plate 234. It is preferably configured to be obliquely having a diameter, so that the exhaust hole 232a and the condensation hole 233a are positioned at an oblique position with respect to the water vapor direction, and thus, stagnation is minimized.

In addition, the cooling condensation filter means 230 according to the present invention, two or more may be continuously configured at a predetermined interval inside the smoke removal housing 210, in this case the cooling condensation filter means located in the relatively front A plurality of flow path holes 231b are formed in the flange panel 231 of 230-1 so that a part of the water vapor is exhausted through the exhaust hole 232a and the condensation hole 233a, and the rest of the water vapor is flow path holes ( 231b) to quickly exhaust toward the cooling condensation filter means 230-2 located relatively backward, so that the amount of water vapor is greater than the processing capacity of the cooling condensation filter means 230-1 Preferably, the condensation phenomenon of the water vapor is minimized by exhausting the cooling condensation filter unit 230-2 located at the next stage.

In addition, the cooling condensation filter means 230 according to the present invention, a plurality of examples in the interior of the smoke removal housing 210 having a more expanded area, four or more may be configured as a group, through which, It is desirable to minimize the phenomenon of stagnation of water vapor generated because the amount of water vapor is greater than the processing capacity of the cooling condensation filter means 230.

On the other hand, in the present invention, the cooling condensation filter means 230 is a plurality of spaces in at least one of the space between the exhaust filter cylinder 232 and the condensation filter cylinder 233 and the internal space of the condensation filter cylinder 233. It is preferable that the two white lead particle liquid bodies are further filled.

Here, the white lead particle liquefied body is a means for sufficiently contacting the white lead and fine dust particles to liquefy the white lead and fine dust particles as they cool and condensate, and has a high thermal conductivity and enables the movement of the white lead with a light platinum or aluminum material. By having a ball type that provides a void, the condensed water in contact with white lead can be settled down along the surface by gravity as compared with having a hexahedral shape.

In addition, the white lead particle liquefied body, it is preferable to further have one or a plurality of through holes penetrating the ball-type body so as to increase the contact area while improving the movement of white lead to improve the liquefaction rate of white lead.

The collecting filter unit 240 is a means for adsorbing and removing contaminants such as water vapor and moisture discharged to the outlet 212 formed at the front end of the outlet 212 of the white smoke removal housing 210. It is preferable that it is a dummy filter having a structure that is integrally configured or detachably installed inside the housing 210 and has an area corresponding to the hollow of the white smoke removal housing 210.

Therefore, according to the white smoke removal device 200, the white smoke in the water vapor through the condensation and condensation of the water vapor by the exhaust passage structure that sucks the water vapor exhausted from the electrostatic agglomeration device 100 and is cooled while the water vapor is guided, And fine dust can be removed.

On the other hand, in the present invention, the electrostatic agglomeration apparatus 100 and the white smoke removal apparatus 200 are configured to have a structure in communication with each other in a state configured independently of each other, the electrostatic agglomeration apparatus 100 is a smoke removal apparatus 200 That is, the lower end of the, that is, may be configured to be integrally and integrally formed in the front end of the smoke removal housing 210 in which water vapor is introduced.

That is, the ionizer 120A, the collector 120B, the electrostatic agglomeration fan 130, and the like of the electrostatic agglomeration device 100 are configured on the inlet 211 side of the white smoke removal device 200. Can be.

In addition, when the electrostatic agglomeration device 100 is configured inside the white smoke elimination housing 210 as described above, the dust elimination filter 220 is preferably configured selectively.

The control device 300 is a control means for providing a function of controlling and controlling the operating states of the electrostatic agglomeration apparatus 100 and the smoke removal apparatus 200 and guiding information on this to an external administrator. 100 and the monitoring unit 310 to capture the operating state of the smoke removal device 200 or to obtain the data on the surrounding situation through a variety of sensors, the data obtained from the monitoring means 310, so that the administrator can check Or display means 330 for displaying the control information provided from the control means 320, control information corresponding to the obtained data from the administrator, or generating the control information through a preset program and generating the control information. The control means 320 to control the electrostatic agglomeration device 100 and the smoke removal device 200 and the obtained data or control well based on Communication means 340 to provide an external to the manager terminal (M) to determine the operation state of the electrostatic agglomeration device 100 or the smoke removal device 200 from the outside and to provide the control information to the control means 320 ), And the like.

The monitoring means 310 is installed in a chimney such as a smoke generating means or the like to capture the operating conditions of the electrostatic agglomeration apparatus 100 and the smoke removal apparatus 200, or the like, or the electrostatic agglomeration apparatus 100 or the smoke removal apparatus. Various humidity sensors, air volume sensor, and the like configured inside the 200 may be included. More preferably, it is preferable to provide the control means 320 with data collected through the IoT method.

The display means 330 includes a monitor for allowing a manager to visually check the state information according to the captured image or the acquired data of the monitoring means 310, and more preferably, the image and the data are watched. It is preferable to display information corresponding to the image or the processed data by the UI.

The control means 320 is a means that is electrically connected to the monitoring means 310, the display means 330 and the communication means 340 and to control the operation of the electrostatic agglomeration device 100 and the smoke removal device 200. The control program generates control information corresponding to the obtained data from the administrator or generates corresponding control information through a preset program and controls the electrostatic agglomeration apparatus 100 and the smoke removal apparatus 200 based on the control information. It includes.

The communication means 340 provides the external control terminal M with the data acquired by the monitoring means 310 or the control information of the control means 320 to the electrostatic agglomeration device 100 or the smoke removal device from the outside ( As a means for grasping the operation state of the 200 and providing the control information to the control means 320, the control means 320 can be communicated and remotely controlled with the manager terminal (M) through the SNS or manager application. have.

Here, the electrostatic agglomeration device 100 or the smoke removal device 200, to receive the control information from the control means 320 and to communicate with the communication means 340 in a wired or wireless manner to perform the operation thereof Preferably, the communication module T is configured.

Hereinafter, the white lead and fine dust reduction methods of the white lead and fine dust reduction system having the above-described configuration will be described.

First, water vapor having white smoke and fine dust is sucked into the electrostatic agglomeration housing 110 of the electrostatic agglomeration apparatus 100 from a chimney discharge part of an industrial facility where white smoke and fine dust are generated.

Thereafter, the water vapor has an ion state by the discharge operation of the ionizer 120A of the electrostatic aggregating housing 110, and then the white smoke and fine dust particles in the ion water vapor are electrostatically discharged by the electrical collection operation of the collector 120B. It is adsorbed and removed by the miracle characteristic.

Thereafter, water vapor discharged from the electrostatic agglomeration housing 110 is sucked into the smoke removal housing 210 of the smoke removal apparatus 200.

Then, as the dust removal filter unit 220 is configured inside the smoke removal housing 210, the white smoke and fine dust particles introduced into the smoke removal housing 210 are removed by adsorption, and thus, the cooling condensation filter means 230 The amount of contaminants such as dust or moisture contained in the water vapor which is moved toward the surface is minimized, and even though the white smoke and the fine dust particles are stagnated according to the exhaust path structure of the cooling condensation filter means 230, the cooling condensation filter means 230 Moisture or dust is adsorbed and deposited inside the c) to minimize the deterioration of condensation removal efficiency.

Subsequently, water vapor moves to the condensation hole 233a having a relatively large diameter via the exhaust hole 232a having the small diameter of the cooling condensation filter means 230. As the pressure has a positive pressure state and the pressure inside the exhaust filter cylinder 232 has a negative pressure state, the white smoke and fine dust particles move at a high speed from the outside of the exhaust filter cylinder 232 to the inside, and thus the condensation filter cylinder ( 233 is cooled to a predetermined temperature and the water vapor is condensed or condensed on the surface of the condensation filter cylinder 233 and then settled and removed by the collection tank 213 configured at the lower end of the white smoke removal housing 210.

Then, as the sump filter 240 is configured inside the white smoke removal housing 210, white smoke and fine dust particles are minimized in the water vapor discharged from the white smoke removal housing 210.

On the other hand, the electrostatic agglomeration device 100 and the smoke removal device 200 as described above is controlled by the control device 300, the description of the white smoke and fine dust reduction control method using the control device 300 As follows.

First, by the control information of the control device 300, the operation of the ionizer 120A and collector 120B and the electrostatic agglomeration fan 130 and the exhaust fan of the smoke removal device 200, etc. Operations of the 236 and the vibrator 237 are controlled to reduce white smoke and fine dust particles in the water vapor generated from an industrial facility.

At the same time, the image corresponding to the operating conditions of the electrostatic agglomeration apparatus 100 and the smoke removal apparatus 200, etc. are taken by the monitoring means 310, or various data are collected by various humidity sensors, air flow rate sensors, and the like. Data is provided to the control means (320).

Subsequently, state information according to the captured image or the acquired data is output by the control means 320 through the display means 330, and the operation state of the electrostatic agglomeration apparatus 100 and the smoke removal apparatus 200 is confirmed by the manager. do.

Subsequently, control information corresponding to the obtained data is generated by the control unit 320 from the manager, or corresponding control information is generated by a preset program to generate the electrostatic agglomeration device 100 and the smoke removal device 200. The operation is reset and controlled.

Here, the photographed image, the acquired data and the control information, etc. may be provided to the external manager terminal (M) through the communication means 340, and also receives the control information corresponding to the external manager terminal (M) Thus, the control means 320 may be controlled to correspond to the control information.

Therefore, according to the white smoke and fine dust reduction system of the present invention, the dust and odor of the white smoke and fine dust particles of the water vapor can be adsorbed and removed by the electrostatic agglomeration device (100).

In addition, the white smoke and fine dust particles of the steam can be condensed or condensed and settled and removed by the exhaust passage structure of the white smoke removal device 200 is cooled while moving at a high speed.

In the above-described invention, specific embodiments have been described, but various modifications may be made without departing from the scope of the invention. Therefore, the scope of the invention should not be defined by the described embodiments, but should be defined by the claims and their equivalents.

Claims

An electrostatic agglomeration device (100) for sucking water vapor including white smoke and fine dust in an industrial facility and allowing the white smoke and fine dust particles in the water vapor to be adsorbed and removed;

White smoke and fine particles, characterized in that it comprises a white smoke removal device 200 to suck the water vapor exhausted from the electrostatic agglomeration device 100, and the water vapor is condensed and condensed by sedimentation by the exhaust passage structure that is cooled while the water vapor is induced Dust reduction system.
The method of claim 1,

White smoke and fine particles, characterized in that it comprises a control device 300 for controlling and controlling the operation state of the electrostatic agglomeration device 100 and the smoke removal device 200 and to guide the information to the external administrator Dust reduction system.
The method of claim 1, wherein the electrostatic agglomeration device 100,

An electrostatic agglomeration housing 110 through which water vapor is sucked in and exhausted;

Ionizer 120A and collector 120B configured inside the electrostatic aggregating housing 110 and discharging the internal space of the electrostatic aggregating housing 110 to ionize the white smoke and fine dust particles of water vapor and then collecting and adsorbing them electrically. ; And

White smoke and fine dust reduction system, characterized in that it comprises an electrostatic agglomeration fan (130) configured inside the electrostatic agglomeration housing (110).
According to claim 1, The smoke removal device 200,

A smoke removal housing 210 for allowing water vapor to be sucked through the inlet 211 and allowing water vapor to be discharged through the outlet 212;

A dust removal filter 220 configured at a rear end of the suction port 211 of the smoke removal housing 210 and configured to adsorb and remove contaminants contained in the water vapor sucked into the suction port 211;

It is configured at the front end of the outlet 212 of the white smoke removal housing 210 and provides an exhaust passage structure in which water vapor exhausted toward the outlet 212 is cooled, so that the white smoke and fine dust particles are condensed or condensed to settle and remove. Cooling condensation filter means 230;

White smoke removal fan 240 configured on the outlet 212 side of the smoke removal housing 210; And

White smoke and fine dust reduction characterized in that it comprises a collecting filter unit 250 is configured to the front end of the exhaust outlet 212 of the smoke removal housing 210 to adsorb and remove the contaminants of the water vapor discharged to the outlet 212 system.
The method of claim 4, wherein the cooling condensation filter means 230,

A flange panel 231 having an area smaller than that of the inner circumferential surface of the white smoke removal housing 210 and having a discharge hole 231a for discharging water vapor at a central portion thereof and opening in a predetermined area;

The exhaust pipe 231a has a diameter larger than the discharge hole 231a from one surface of the flange panel 231, and is formed to have a predetermined size by forming a plurality of exhaust holes 232a into which water vapor flows into the surface. An exhaust filter barrel 232 allowing water vapor (including white smoke and fine dust particles not removed through sedimentation and adsorption) to be moved toward the outlet 212 of the inner side;

It has a diameter corresponding to the discharge hole 231a from one surface of the flange panel 231 and extends in a cylindrical structure, and a plurality of condensation holes 233a are formed on the surface of the flange panel 231 to a size larger than that of the exhaust hole 232a. A condensation filter container 233 to condense and settle the water vapor introduced into the exhaust filter container 232 through the condensation hole 233a through 232a;

A blocking plate 234 which closes the open ends of the exhaust filter cylinder 232 and the condensation filter cylinder 233 to form a flow path through which water vapor flows into the exhaust hole 232a and the condensation hole 233a;

Communication 235 extending from the other surface of the flange panel 231 and providing a space communicated with the discharge hole (231a); And

Water vapor including white smoke and fine dust disposed in the interior space of the communication 235 and located in the space between the exhaust filter container 232 and the space between the smoke removal housing 210 and the exhaust hole 232a and the condensation hole 233a. White exhaust and fine dust reduction system, characterized in that it comprises an exhaust fan (236) to be introduced through the condensation phenomenon occurs between the exhaust filter cylinder 232 and the condensation filter cylinder 233.
The method of claim 5, wherein the cooling condensation filter means 230,

White smoke and fine dust reduction, characterized in that it comprises a vibrator 237 which is installed in the exhaust filter cylinder 232 or the blocking plate 234 to generate vibration in the exhaust filter cylinder 232 and the condensation filter cylinder 233. system.
The method of claim 6, wherein the cooling condensation filter means 230,

The communication 235 in which the exhaust fan 236 is configured has a bellows duct structure.

The exhaust filter cylinder 232 is a white smoke and fine dust reduction system, characterized in that installed on the inner circumferential surface of the smoke removal housing 210 in a vibration preventing structure.
The method of claim 5, wherein the cooling condensation filter unit 230,

The at least one of the space between the exhaust filter cylinder 232 and the condensation filter cylinder 233 and the internal space of the condensation filter cylinder 233 is further filled with a plurality of white smoke particle liquid bodies,

The white lead particle liquid,

White smoke and fine dust reduction system characterized in that it has a high thermal conductivity material and has a ball type to provide voids.
According to claim 1, The smoke removal device 200,

White smoke and fine dust reduction system, characterized in that the vertical or horizontal inflow of water vapor including white smoke and fine dust of the industrial facility through a vertical or horizontal structure.
The method of claim 1,

Electrostatic agglomeration device 100 is a white smoke and fine dust reduction system, characterized in that built in and integrally formed in the front end of the smoke removal apparatus 200.
In the white smoke removal device to suck the water vapor exhaust from the external or electrostatic agglomeration device 100 and to settle and remove water vapor by condensation and condensation by the exhaust passage structure that is cooled while the water vapor is induced,

A flange panel 231 having an area smaller than that of the inner circumferential surface of the white smoke removal housing 210 and having a discharge hole 231a for discharging water vapor at a central portion thereof and opening in a predetermined area;

The exhaust pipe 231a has a diameter larger than the discharge hole 231a from one surface of the flange panel 231, and is formed to have a predetermined size by forming a plurality of exhaust holes 232a into which water vapor flows into the surface. An exhaust filter barrel 232 allowing water vapor (including white smoke and fine dust particles not removed through sedimentation and adsorption) to be moved toward the outlet 212 of the inner side;

It has a diameter corresponding to the discharge hole 231a from one surface of the flange panel 231 and extends in a cylindrical structure, and a plurality of condensation holes 233a are formed on the surface of the flange panel 231 to a size larger than that of the exhaust hole 232a. A condensation filter container 233 to condense and settle the water vapor introduced into the exhaust filter container 232 through the condensation hole 233a through 232a;

A blocking plate 234 which closes the open ends of the exhaust filter cylinder 232 and the condensation filter cylinder 233 to form a flow path through which water vapor flows into the exhaust hole 232a and the condensation hole 233a;

Communication 235 extending from the other surface of the flange panel 231 and providing a space communicated with the discharge hole (231a); And

Water vapor including white smoke and fine dust disposed in the interior space of the communication 235 and located in the space between the exhaust filter container 232 and the space between the smoke removal housing 210 and the exhaust hole 232a and the condensation hole 233a. Cooling condensation filter means characterized in that it comprises an exhaust fan 236 to be introduced through the condensation phenomenon between the exhaust filter cylinder 232 and the condensation filter cylinder 233.
The method of claim 11,

Cooling condensation filter means, characterized in that it further comprises a vibrator 237 which is installed in the exhaust filter cylinder 232 or the blocking plate 234 to generate vibration in the exhaust filter cylinder 232 and the condensation filter cylinder 233. .
The method of claim 12,

The communication 235 in which the exhaust fan 236 is configured has a bellows duct structure.

Exhaust filter pail 232 is a cooling condensation filter means, characterized in that installed on the inner circumferential surface of the white smoke removal housing 210 in an anti-vibration structure.
The method of claim 11,

The at least one of the space between the exhaust filter cylinder 232 and the condensation filter cylinder 233 and the internal space of the condensation filter cylinder 233 is further filled with a plurality of white smoke particle liquid bodies,

The white lead particle liquid,

Cooling condensation filter means having a high thermal conductivity material and having a ball type to provide voids.
The method of claim 11,

Cooling condensation filter, characterized in that the exhaust filter cylinder 232 and the condensation filter cylinder 233 has one end extending to the flange panel 231 has a diameter larger than the other end extending to the blocking plate 234 Way.
The method of claim 11,

When two or more consecutively configured at regular intervals inside the white smoke removal housing 210,

A plurality of flow path holes 231b are formed in the flange panel 231 of the cooling condensation filter means 230-1 located relatively forward, and a part of the water vapor is exhausted through the exhaust hole 232a and the condensation hole 233a. Cooling condensation filter means characterized in that.
The method of claim 11,

Cooling condensation filter means, characterized in that the plurality of the inside of the white smoke removal housing 210 is configured as a group.